HYPERTENSION AND THE GUT MICROBIOME: USING GUT MICROBES TO REDUCE BLOOD PRESSURE
Professor Francine Marques
Professor of Genetics and Genomics
Monash University, Victoria, Australia
RESEARCHER PROFILE (Filmed in Clayton, Victoria | December 2024)
Professor Francine Marques is an National Health and Medical Research Council Emerging Leader, Viertel Charitable Foundation, and National Heart Foundation Fellow.
She leads the Hypertension Research Laboratory at Monash University and has published more than 120 peer-reviewed papers in journals such as Nature Reviews Cardiology, Nature Medicine, Nature Cardiovascular Research, and Circulation.
As a researcher Professor Marques has secured over $10 million in competitive funding as a principal investigator. She has won 31 awards, including the 2019 American Heart Association Hypertension Council Goldblatt Award, the 2020 High Blood Pressure Research Council of Australia and 2021 International Society of Hypertension Mid-Career Awards, the 2021 Australian Academy of Science Gottschalk Medal, and the 2024 Australian Society of Medical Research Peter Doherty Leading Light Award, and was a finalist for 12 awards, including the Eureka Prize Emerging Leader in Science.
Her research team aims to build exceptional scientists that help improve cardiovascular health, using translational approaches to lower blood pressure via the gut microbiome. Professor Marques is also passionate about equity, diversity and inclusion (EDI) and helping communities change the current culture of research.
She has led research identifying intrinsic equity issues in the cardiovascular research community in Australia (https://pubmed.ncbi.nlm.nih.gov/32839116/), followed by research to find solutions for these issues (https://pubmed.ncbi.nlm.nih.gov/35577952/), resulting in the 2021 Women’s Agenda Emerging Leader in STEM award.
Outside work, Francine enjoys baking, travelling, spending time with family, friends and her dogs, and reading books.
https://orcid.org/0000-0003-4920-9991
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Impact of NextSense Institute Research in the field of sensory disabilities
NextSense has a 165 year history of providing services and education for individuals with sensory impairments. With the support of donations, NextSense provides vital support for children and adults, more cochlear implants than any other service in Australia, and is a world leader for research, technology and professional education in the fields of visions and hearing loss.
NextSense clinicians are actively involved in a number of leading research projects—both independently and in collaboration with local and international organisations. The NextSense Institute, part of NextSense is Australia’s leading centre for research and professional education in the field of sensory disabilities.
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Biostatistics in Clinical Trials
As a biostatistician working in research and clinical settings, Kate Francis plays a vital role in ensuring all projects adhere to best practice guidelines and are transparently reported. She has served as the lead statistician for the analysis of clinical trials across a broad range of subject areas, including neonatal resuscitation, BCG for allergy and infection, convulsive status epilepticus and her work has been published in the top journals such as The New England Journal of Medicine, JAMA, and The Lancet. Most recently she was awarded the 2025 Excellence in Trial Statistics Award for her work on the PLUSS trial.
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Muscle Cell Communication and Repair
Dr. William Roman is a Group Leader at the Australian Regenerative Medicine Institute (ARMI) at Monash University. He obtained his PhD from Paris Descartes University and Freie University of Berlin, focusing on nuclear positioning during skeletal muscle development. Dr. Roman’s research journey has taken him across the globe, including postdoctoral work in Barcelona, tissue engineering in Lisbon, and a brief stint at Stanford University.
At ARMI, Dr. Roman leads innovative research on intercellular communication within muscle organs. His work involves growing human muscles on chips to understand how skeletal muscle cells interact with neurons and tendons. This research aims to develop better models for studying muscle diseases, drug screening, and even applications in cellular agriculture and biorobotics.
